Challenge: Existing training pipelines sample training examples uniformly across steps or epochs, ignoring differences in difficulty, redundancy, and learning value, which slows learning and wastes computation.
Approach: They propose a self-paced learning framework that enables efficient learning based on the capability of the model being trained through optimizing which data to use and when.
Outcome: The proposed framework achieves comparable or better accuracy than state-of-the-art baselines while using up to (100 times) fewer samples.

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Beyond Random Sampling: Efficient Language Model Pretraining via Curriculum Learning (2026.eacl-long)

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Challenge: Curriculum learning has improved efficiency across machine learning domains, but remains underexplored for language model pretraining.
Approach: They present a systematic investigation of curriculum learning in LLM pretraining . they use vanilla curriculum learning, pacing-based sampling, and interleaved curricula .
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A Survey of Reinforcement Learning for Large Language Models under Data Scarcity: Challenges and Solutions (2026.acl-long)

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Challenge: Existing research on reinforcement learning for LLMs under data scarcity has not been unified.
Approach: They propose a top-up hierarchical framework built around three complementary perspectives: data-centric, training-centric and framework-centric.
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Enhancing Efficiency and Exploration in Reinforcement Learning for LLMs (2025.emnlp-main)

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Challenge: Existing approaches allocate an equal number of rollouts to all questions during the RL process, which is inefficient.
Approach: They propose a mechanism for dynamically allocating rollout budgets based on the difficulty of the problems, enabling more efficient RL training.
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From Data-Centric to Sample-Centric: Enhancing LLM Reasoning via Progressive Optimization (2026.acl-long)

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Challenge: Reinforcement learning with verifiable rewards (RLVR) has recently advanced the reasoning capabilities of large language models (LLMs).
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When Life Gives You Samples: The Benefits of Scaling up Inference Compute for Multilingual LLMs (2025.emnlp-main)

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Challenge: Recent advances in large language models have shifted focus toward scaling inference-time compute.
Approach: They propose to scale inference-time compute in a multilingual, multi-task setting . they propose to use m-ArenaHard-v2.0 prompts to sample multiple outputs in parallel .
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Scaling Down, Serving Fast: Compressing and Deploying Efficient LLMs for Recommendation Systems (2025.emnlp-industry)

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Challenge: Large language models (LLMs) have demonstrated remarkable performance across a wide range of industrial applications.
Approach: They propose two techniques for training and deploying small language models that deliver high performance for a variety of industry use cases.
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Exploring Self-supervised Logic-enhanced Training for Large Language Models (2024.naacl-long)

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Challenge: Traditional attempts to enhance the logical reasoning abilities of language models often rely on supervised fine-tuning, limiting their generalization to new tasks or domains.
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Feedback-Driven Tool-Use Improvements in Large Language Models via Automated Build Environments (2026.findings-acl)

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Challenge: Currently, there are no efficient reinforcement learning (RL) frameworks specifically designed for tool use.
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S2R: Teaching LLMs to Self-verify and Self-correct via Reinforcement Learning (2025.acl-long)

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Challenge: Existing approaches to incentivize LLMs’ deep thinking abilities require large-scale data or significant training efforts.
Approach: They introduce an efficient framework that enhances LLM reasoning by teaching models to self-verify and self-correct during inference.
Outcome: The proposed framework outperforms models trained on long-CoT distilled data with 3.1k initialization samples and achieves an accuracy improvement of 51.0% to 81.6%.
Self-training Large Language Models through Knowledge Detection (2024.findings-emnlp)

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Challenge: Large language models (LLMs) often require extensive labeled datasets and training compute to achieve impressive performance across downstream tasks.
Approach: They propose a self-training paradigm where the LLM curates its own labels and selectively trains on unknown data samples identified through a reference-free consistency method.
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